aks129/HealthClawGuardrails/skills/getting-started/SKILL.md
getting-started
End-to-end onboarding for the HealthClaw + OpenClaw personal-health-agent stack. Walks anyone — not just developers — through (1) installing OpenClaw as the local AI gateway, (2) standing up an open-source FHIR server (HAPI or Medplum) on their machine, (3) connecting their EHR records via HealthEx, Josh Mandel's fhir-skills, Flexpa, or any patient-right-of-access / TEFCA IAS service, (4) installing HealthClaw Guardrails with the OpenClaw personas pre-wired, and (5) pulling + reviewing health da
- Source repository stars
- 27
- Declared platforms
- 1
- Static risk flags
- 2
- Last source update
- 2026-08-04
- Source checked
- 2026-08-04
Decision brief
What it does—and where it fits
The goal: a fully local, private, agent-mediated view of your own clinical records. Nothing leaves your machine unless you explicitly send it. By the end of this guide you'll have:
Not for
- Tasks that require unconfirmed production actions or broad system permissions.
- Environments where the pinned source and install steps cannot be inspected.
Compatibility matrix
Platform support, with evidence labels
| Platform | Status | Evidence | What to check |
|---|---|---|---|
| Codex | Not declared | No explicit evidence | Portability before use |
| Claude Code | Declared | Source record | Install path and trigger |
| Cursor | Not declared | No explicit evidence | Portability before use |
| Gemini CLI | Not declared | No explicit evidence | Portability before use |
Installation
Inspect first. Install second.
The source command is displayed only when detected. A safe inspection prompt is always available so your agent can explain every action before execution.
npx skills add https://github.com/aks129/HealthClawGuardrails --skill "skills/getting-started"Inspect the Agent Skill "getting-started" from https://github.com/aks129/HealthClawGuardrails/blob/b94ae9ea95695d5755e22b02ef7b7385f0e3aee7/skills/getting-started/SKILL.md at commit b94ae9ea95695d5755e22b02ef7b7385f0e3aee7. List every install step, command, network request, credential, file read/write, external action, and rollback step. Explain whether it fits my task. Do not install or execute anything until I approve.
Workflow
What the source asks the agent to do
- 01
Step 1a — OpenClaw
OpenClaw is the local AI gateway: it runs your agent personas, exposes them on whichever channels you want (Telegram, WhatsApp, iMessage, Slack, web), and gives them access to your installed skills.
OpenClaw is the local AI gateway: it runs your agent personas, exposes them on whichever channels you want (Telegram, WhatsApp, iMessage, Slack, web), and gives them access to your installed skills.If openclaw --version prints a version and /.openclaw exists, skip to Step 1b. Otherwise continue.The canonical install lives at — start there. The homepage points to the current install method (npm vs Homebrew vs scripted installer); use whatever it tells you, since the install path can change between releases. The… - 02
(run after cloning HealthClaw — covered in Step 3)
./scripts/seedopenclawworkspaces.sh bash
./scripts/seedopenclawworkspaces.sh bash - 03
Step 1b — Open-source FHIR server
You need somewhere to store your records once you pull them. Two solid choices, pick one:
You need somewhere to store your records once you pull them. Two solid choices, pick one:The reference Java implementation. Easiest to run, supports R4 + R5, no auth out of the box (which is fine on localhost). - 04
Step 2 — Connect your real records
This is the "patient right of access" step — you authenticate with your healthcare provider(s) and pull your records into the FHIR server you just set up. Records never go to the cloud. They flow EHR → connector → your machine, and stop there.
This is the "patient right of access" step — you authenticate with your healthcare provider(s) and pull your records into the FHIR server you just set up. Records never go to the cloud. They flow EHR → connector → your…Quick checks for the common services: - 05
Step 3 — Install HealthClaw Guardrails (with OpenClaw personas wired)
bash git clone https://github.com/aks129/HealthClawGuardrails cd HealthClawGuardrails
bash git clone https://github.com/aks129/HealthClawGuardrails cd HealthClawGuardrails
Permission review
Static risk signals and limitations
Runs scripts
The documentation asks the agent to run terminal commands or scripts.
npx -y @openclaw/cli initNetwork access
The documentation includes network, browsing, or remote request actions.
# C — scripted installer (check openclaw.ai for the current curl URL)Network access
The documentation includes network, browsing, or remote request actions.
openclaw gateway start # http://localhost:4319 by defaultRuns scripts
The documentation asks the agent to run terminal commands or scripts.
docker run -d --name hapi-fhir \Evidence record
Why each signal appears
| Signal | Value | Evidence type | Meaning |
|---|---|---|---|
| Quality score | 94/100 | Computed | Documentation, specificity, maintenance, and trust rules |
| Repository stars | 27 | Source | Repository attention, not individual Skill quality |
| Compatibility | 1 platforms | Source | Declared in the catalog source record |
| Usage guide | automated source guide | Editorial | Generated or reviewed according to the visible evidence level |
Pinned source
Provenance and original SKILL.md
- Repository
- aks129/HealthClawGuardrails
- Skill path
- skills/getting-started/SKILL.md
- Commit
- b94ae9ea95695d5755e22b02ef7b7385f0e3aee7
- License
- MIT
- Collected
- 2026-08-04
- Default branch
- main
View the original SKILL.md
Getting started — HealthClaw + OpenClaw + your health data
The goal: a fully local, private, agent-mediated view of your own clinical records. Nothing leaves your machine unless you explicitly send it. By the end of this guide you'll have:
- An OpenClaw gateway (your local AI assistant runtime — Telegram / WhatsApp / iMessage / Slack / web)
- An open-source FHIR server holding your records (HAPI or Medplum)
- Your real EHR records pulled in via a patient-right-of-access service of your choice
- HealthClaw Guardrails sitting between any agent and that data, enforcing PHI redaction, audit trails, step-up auth, and tenant isolation
- OpenClaw agent personas (Sally-PCP, Mary-pharmacy, Dom-fitness, Kristy-scheduler) already wired to the slash-command surface and aware of every HealthClaw tool
If you already have one or more of these, the guide will tell you how to verify and skip ahead — don't reinstall what's working.
Privacy guarantee. Steps 1–4 keep your raw clinical data on your machine. The only network calls are to your chosen EHR connector (HealthEx, Flexpa, etc.) and that traffic is OAuth/SMART-on-FHIR with your explicit consent. PHI is redacted in-process before any file is written.
Prerequisites
| Requirement | Why | How to check |
|---|---|---|
| macOS / Linux | Stack is tested on Darwin + Linux. Windows works under WSL2. | uname -sm |
| Python 3.11+ | Flask app + scripts | python3 --version |
| Node 22+ | OpenClaw + the MCP orchestrator | node --version |
| Docker (optional) | Easiest way to run HAPI / Medplum / HealthClaw | docker --version |
git | All repos | git --version |
| ~30 min | First-time setup | — |
If anything is missing, install via Homebrew (macOS) or your distro's package manager. Don't proceed until all four exist.
Step 1a — OpenClaw
OpenClaw is the local AI gateway: it runs your agent personas, exposes them on whichever channels you want (Telegram, WhatsApp, iMessage, Slack, web), and gives them access to your installed skills.
Check whether it's already installed
which openclaw # binary path, if present
openclaw --version # confirms install
ls ~/.openclaw 2>/dev/null # workspace dir
launchctl list | grep openclaw # macOS LaunchAgent (if running as daemon)
If openclaw --version prints a version and ~/.openclaw exists, skip to
Step 1b. Otherwise continue.
Install it
The canonical install lives at https://openclaw.ai — start there. The homepage points to the current install method (npm vs Homebrew vs scripted installer); use whatever it tells you, since the install path can change between releases. The historical commands the repo has used:
# A — npm (most common)
npx -y @openclaw/cli init
# B — Homebrew tap
brew install openclaw/tap/openclaw
# C — scripted installer (check openclaw.ai for the current curl URL)
After install, log in and start the gateway:
openclaw auth login # OAuth in browser
openclaw gateway start # http://localhost:4319 by default
openclaw status # confirm "running"
For an always-on Mac mini setup (LaunchAgent so it survives reboot), see
docs/mac-mini-setup.md in this repo — it has the
full plist + caffeinate recipe.
Persona workspaces
OpenClaw runs each persona as a separate workspace under
~/.openclaw/workspace/. The HealthClaw repo provides a one-shot script to
seed Sally / Mary / Dom / Kristy:
# (run after cloning HealthClaw — covered in Step 3)
./scripts/seed_openclaw_workspaces.sh
Don't run this yet — Step 3 will tell you when.
Step 1b — Open-source FHIR server
You need somewhere to store your records once you pull them. Two solid choices, pick one:
Option A — HAPI FHIR (recommended for first-timers)
The reference Java implementation. Easiest to run, supports R4 + R5, no
auth out of the box (which is fine on localhost).
# Already running anywhere?
curl -sf http://localhost:8080/fhir/metadata >/dev/null && echo "HAPI is up"
# If not — Docker is the fastest path
docker run -d --name hapi-fhir \
-p 8080:8080 \
hapiproject/hapi:latest
# Wait ~30s, then verify
curl -s http://localhost:8080/fhir/metadata | head -c 200
You now have a FHIR R4 server at http://localhost:8080/fhir.
Public sandbox (zero install, but don't put real data here — it's shared and wiped weekly): https://hapi.fhir.org/baseR4.
Repo: https://github.com/hapifhir/hapi-fhir-jpaserver-starter.
Option B — Medplum (more features, OAuth-ready)
Full Medplum platform: FHIR R4 + auth + dashboard + audit. Heavier setup, but gives you a UI to browse resources.
git clone https://github.com/medplum/medplum
cd medplum
docker compose -f compose-dev.yaml up -d
# Wait 60–90s for Postgres + server to come up
open http://localhost:3000 # admin UI
Then create a project, copy the project ID, and set
MEDPLUM_BASE_URL=https://api.medplum.com/fhir/R4/<project-id> (or your
local URL) — HealthClaw's upstream proxy talks to it via OAuth2
client-credentials.
Repo: https://github.com/medplum/medplum · Docs: https://www.medplum.com/docs.
Verify before continuing
# Whichever you picked, this should print FHIR capability statement
curl -s http://localhost:8080/fhir/metadata | python3 -c \
"import sys, json; d=json.load(sys.stdin); \
print('FHIR', d.get('fhirVersion'), '·', d.get('software',{}).get('name'))"
Don't proceed without a green response — Steps 3+ assume one is reachable.
Step 2 — Connect your real records
This is the "patient right of access" step — you authenticate with your healthcare provider(s) and pull your records into the FHIR server you just set up. Records never go to the cloud. They flow EHR → connector → your machine, and stop there.
Have you already connected somewhere?
Quick checks for the common services:
# HealthEx (claude.ai integration)
# — check claude.ai → Settings → Integrations → HealthEx → "Connected"?
# Local export bundles already on disk?
ls -1t exports/healthex-*.json ~/.healthclaw/exports/healthex-*.json 2>/dev/null | head -3
# A FHIR server already populated?
curl -s "http://localhost:8080/fhir/Patient?_count=1" | grep -c '"resourceType":"Patient"'
If any of those return existing data, skip to Step 3 — you're already connected.
Pick a connector
| Service | Best for | What it gives you | Auth |
|---|---|---|---|
| HealthEx | US patients with Epic / Cerner / CommonWell / Carequality | Pre-built MCP tools (get_health_summary, get_conditions, get_labs, …) directly in claude.ai | OAuth in browser — one-time per provider |
| Josh Mandel's fhir-skills | DIY / SMART-on-FHIR savvy users | A skill-based bridge that lets Claude talk SMART-on-FHIR to Epic and other systems | SMART app launch you configure |
| Flexpa | Apps that need structured FHIR via an API | Hosted patient-right-of-access API; you get an access token + FHIR base URL | OAuth |
| Direct SMART-on-FHIR | Power users who want zero middleware | Register a SMART app at the EHR's developer portal; auth → token → FHIR API | OAuth + PKCE |
| TEFCA IAS (via Fasten) | Cross-network records (multiple health systems via QHIN) | One auth → records from every health system on the QHIN network | Stitch widget (TEFCA mode) |
Recommended path: HealthEx
Lowest friction, cleanest output, and HealthClaw already has a one-command import that uses the official MCP SDK and redacts PHI in-process.
-
Create a HealthEx account at https://healthex.io
-
In claude.ai → Settings → Integrations → HealthEx → Connect
-
In the HealthEx UI, connect your health systems (Epic, Cerner, CommonWell, etc.) — each one is a SMART-on-FHIR auth flow
-
Grab your HealthEx auth token (see HealthEx docs) and store it in macOS Keychain so the agents can find it later:
security add-generic-password -s healthex -a me -w '<your-token>' -
Verify connection from Claude:
"Check when my health records were last updated"
That triggers
HealthEx:update_and_check_recent_recordsand confirms the link.
You'll do the actual data pull in Step 4 — Step 2 is only about getting authenticated.
Alternative: Josh Mandel's fhir-skills
A more developer-leaning path. Clone the skill repo, configure your SMART app credentials for whichever EHR you're targeting (Epic Open Sandbox is free for personal use), and Claude gets SMART-on-FHIR tools.
git clone https://github.com/jmandel/fhir-skills ~/.claude/skills/fhir-skills
# Follow the README for SMART app registration and config
Alternative: Flexpa
Hosted FHIR-as-a-service. Sign up at https://www.flexpa.com, follow their onboarding to authorize your patient identity, and you get a FHIR base URL
- access token. Plug those into HealthClaw's upstream proxy:
# In your .env
FHIR_UPSTREAM_URL=https://api.flexpa.com/fhir
# Add Flexpa's bearer token in your reverse-proxy / FHIR client
Why none of these touch the cloud (from your point of view)
The connector talks directly to your EHR — your machine in the middle, the cloud only as the OAuth provider. Once records arrive on your machine, the next step (HealthClaw) keeps them there. If you want extra paranoia, run everything inside Docker on a host with no outbound internet except the EHR endpoints.
Step 3 — Install HealthClaw Guardrails (with OpenClaw personas wired)
git clone https://github.com/aks129/HealthClawGuardrails
cd HealthClawGuardrails
# Install Python deps (uv is fastest — falls back to pip if you don't have it)
uv sync || pip install -e .
# Bootstrap your local secrets
cp .env.example .env
# Edit .env — at minimum set STEP_UP_SECRET to a random 32-byte hex string:
# python3 -c "import secrets; print(secrets.token_hex(32))"
Wire in your FHIR server
In .env, point HealthClaw at the server you stood up in Step 1b:
FHIR_UPSTREAM_URL=http://localhost:8080/fhir # HAPI
# or
MEDPLUM_BASE_URL=https://api.medplum.com/fhir/R4/<project-id>
MEDPLUM_CLIENT_ID=…
MEDPLUM_CLIENT_SECRET=…
Leave FHIR_UPSTREAM_URL empty if you'd rather use HealthClaw's bundled
SQLite store for the first run.
Start the stack
# Full stack (Flask + Redis + MCP server + Node orchestrator)
docker-compose up -d --build
# Or, lighter: just Flask
python main.py
Verify:
curl http://localhost:5000/r6/fhir/health
# {"status":"ok","timestamp":"…","upstream":"healthy"} or "local"
Seed the OpenClaw personas
This creates four agent workspaces — Sally (PCP), Mary (pharmacy), Dom
(fitness), Kristy (scheduler) — each with an AGENTS.md that already lists
every HealthClaw slash command and tool:
./scripts/seed_openclaw_workspaces.sh
./scripts/update_agent_prompts.sh # ensures each persona is current
# Install the slash-command dispatcher into ~/.healthclaw/
./scripts/bot_commands_install.sh
Each persona's AGENTS.md references ~/.healthclaw/commands.py for the
mechanics and lists the slash commands the LLM should handle:
/dashboard, /health, /conditions, /labs, /vitals, /meds,
/allergies, /immunizations, /summary, /fhir <type>, /export,
/import <path>, /help, /week, /conflicts.
Connect Claude Desktop / Claude Code
Add to your client's MCP config:
{
"mcpServers": {
"healthclaw-local": {
"type": "http",
"url": "http://localhost:3001/mcp",
"headers": { "X-Tenant-ID": "my-health" }
}
}
}
(Claude Code: .mcp.json in the project root. Claude Desktop:
~/Library/Application Support/Claude/claude_desktop_config.json on macOS.)
Restart the client and confirm the 14 HealthClaw MCP tools appear:
fhir_search, fhir_read, fhir_validate, fhir_propose_write,
fhir_commit_write, curatr_evaluate, curatr_apply_fix, etc.
Cross-reference
For deeper detail on any one piece:
fhir-r6-guardrailsskill — the 14 MCP tools and their guaranteesphi-redactionskill — what gets redacted and whyfhir-upstream-proxyskill — talking to HAPI / Medplum / Epicpersonal-health-recordsskill — the conversational data-pull workflow
Step 4 — Pull data through HealthClaw
You're now authenticated to your EHR (Step 2) and HealthClaw is running (Step 3). Time to pipe records in.
Option A — One command from the agent (recommended)
In Telegram (or any OpenClaw channel), DM any persona:
/export
That invokes scripts/bot_commands.py → cmd_export(), which:
- Reads
HEALTHEX_AUTH_TOKENfrom env or macOS Keychain (set in Step 2) - Opens an MCP Streamable HTTP session to
https://api.healthex.io/mcp - Calls
update_records+check_records_statusto refresh - Pulls every clinical category (
get_health_summary,get_conditions,get_medications,get_allergies,get_immunizations,get_vitals,get_labs,get_procedures,get_visits,search_clinical_notes) - Redacts PHI in-process (names → initials, addresses → state+country, identifiers → SHA-256, birthDate → YYYY, telecom → "***") — raw response never touches disk
- Writes
~/.healthclaw/exports/healthex-<date>.json - Prints
_meta.redaction_statsback to chat
Then ingest into your FHIR server (also via the agent):
/import ~/.healthclaw/exports/healthex-<date>.json
This POSTs to /Bundle/$ingest-context with a step-up token, validates
each entry, and writes through the guardrail proxy to your HAPI / Medplum
upstream.
Option B — Run the scripts directly
# Export (HealthEx → redacted bundle)
HEALTHEX_AUTH_TOKEN="$(security find-generic-password -s healthex -w)" \
python scripts/export_healthex_mcp.py \
--tenant-id my-health \
--output exports/healthex-$(date +%Y-%m-%d).json
# Import (bundle → your FHIR server, gated by step-up auth)
python scripts/import_healthex.py \
--bundle-file exports/healthex-$(date +%Y-%m-%d).json \
--tenant-id my-health \
--step-up-secret "$STEP_UP_SECRET"
For Fasten Health export bundles (different shape), run
scripts/convert_fasten.py first to normalize.
Option C — Pull directly via Claude conversation
If HealthEx is connected to claude.ai (Step 2), just ask:
Pull my complete health history across all categories going back 15 years,
fully paginated. Then build a de-identified FHIR R4 transaction bundle with
US Core resources and write it to healthclaw-bundle-<date>.json.
Then /import the resulting file. The
personal-health-records skill
documents this workflow in detail.
Step 5 — Verify everything works
A 60-second checklist. Each line should produce a green response.
Liveness
# 1. OpenClaw gateway
openclaw status # → "running"
# 2. FHIR server
curl -sf http://localhost:8080/fhir/metadata | head -c 80
# 3. HealthClaw
curl -sf http://localhost:5000/r6/fhir/health
# 4. MCP server (only if running the Node orchestrator)
curl -sf http://localhost:3001/mcp/health || echo "(skip if not using orchestrator)"
Records actually present
# Patient count in the FHIR server
curl -s "http://localhost:8080/fhir/Patient?_summary=count" \
| python3 -c "import sys,json; print('Patients:', json.load(sys.stdin).get('total'))"
# Record breakdown via HealthClaw (PHI-redacted)
curl -s -H "X-Tenant-ID: my-health" \
"http://localhost:5000/r6/fhir/Bundle?type=collection&_summary=count"
Agent-side smoke test
In Claude Desktop / Code with the healthclaw-local MCP server connected:
Use the healthclaw-local tools. Get a step-up token, search for all
Patients in tenant my-health, then read one Condition and one Observation.
Confirm the responses include _mcp_summary and that PHI fields look
redacted.
You should see:
- Patient names like
"E. V."instead of full names - Identifiers prefixed with
redacted:sha256: _mcp_summaryon each result with reasoning + clinical context
Telegram/OpenClaw smoke test
DM any persona on Telegram:
/health
/summary
/conditions
Each should return a structured response paraphrased by the LLM. If
/health reports any subsystem as down, fix that before moving on.
Audit trail
# Confirm every read/write you just did was logged
curl -s -H "X-Tenant-ID: my-health" \
"http://localhost:5000/r6/fhir/AuditEvent?_count=20&_sort=-_lastUpdated" \
| python3 -c "import sys,json; d=json.load(sys.stdin); print('AuditEvents:', d.get('total'))"
You should see one AuditEvent per resource you've touched, including a
clear actor + action + outcome.
What you now have
You — Telegram / Claude Desktop / Claude Code / Web
│
▼
OpenClaw Gateway (localhost:4319)
│ personas: Sally · Mary · Dom · Kristy
│ skills: this repo's skills/ + your own
▼
HealthClaw Guardrails (localhost:5000 + MCP at :3001)
│ PHI redaction · audit · step-up · tenant isolation
▼
FHIR Server (HAPI :8080 or Medplum)
│
▼
Your records — never leave this machine
Troubleshooting
| Symptom | Likely cause | Fix |
|---|---|---|
openclaw: command not found | Install didn't complete or shell PATH not refreshed | Re-run installer; exec $SHELL |
/health shows FHIR upstream down | HAPI / Medplum container not running | docker ps; restart the container |
/export says "HEALTHEX_AUTH_TOKEN not set" | Token never made it to env or Keychain | security add-generic-password -s healthex -a me -w '<token>' |
| HealthClaw write returns 401 | Step-up token expired (5-min TTL) | Call fhir_get_token immediately before the write |
| HealthClaw write returns 428 | Human-in-the-loop required for clinical write | Add X-Human-Confirmed: true after reviewing the proposal |
| MCP tools missing in Claude Desktop | Config file not loaded | Fully quit & relaunch Claude; verify .mcp.json JSON validity |
curl :8080/fhir/metadata hangs | HAPI still booting | Wait 30–60s on first start |
| Records ingested but PHI not redacted | --no-redact was set OR proxy mode without server | Re-export without --no-redact; default is --redact-mode local |
Next steps
Once you've got a green Step 5 checklist:
- Add wearables — see the
OPEN_WEARABLES_URLenv var anddocs/mac-mini-setup.mdfor the Open Wearables sidecar (Fitbit / Oura / Whoop / Garmin / Apple Health). - Run Curatr — the
curatr_evaluateMCP tool finds data quality issues (deprecated ICD-9 codes, contradictory smoking history, antibody titers flagged as pathology, etc.). Seeskills/curatr/SKILL.md. - Connect Fasten Connect for cross-network coverage — TEFCA IAS via
Fasten gives one-auth records from every health system on the QHIN
network. See
skills/fasten-connect/SKILL.md. - Daily review workflow — the
personal-health-recordsskill has prompts for care-gap analysis, lab-trend review, medication reconciliation, and pre-appointment prep.
Where this skill ends and others begin
| If you want to… | Go to |
|---|---|
| Understand each MCP tool's contract | fhir-r6-guardrails |
| See exactly what PHI gets redacted | phi-redaction |
| Wire up an upstream FHIR server (Epic, HAPI, Medplum) | fhir-upstream-proxy |
| Pull records conversationally from HealthEx | personal-health-records |
| Use the MCP-SDK redacted export | healthex-export-redacted |
| Copy data tenant-to-tenant inside HealthClaw | healthex-export |
| Find data quality issues and propose fixes | curatr |
| Connect via TEFCA IAS / Fasten Stitch | fasten-connect |
If a skill above is missing, ping @aks129 on the
HealthClaw repo.
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